Network Traffic/Resource Management TRIZ Cases

An interference rejection filter suppresses co-channel noise in wireless data signals using explicit channel estimation.

A management VNFC detects overload traffic in NG-CU networks and triggers source user plane VNFCs to migrate calls using GTP tunnels.

A base station allocates resources using beam index information to manage UE-to-UE interference in 5G networks.

Network device uses random access preamble indication to identify unmanned aerial vehicle terminals for selective network entry.

A network provisioning system dynamically selects user plane functions based on real-time load assessments to optimize resource distribution.

SDN controller issues altered flow rules to access hardware, eliminating manual reconfiguration of network settings.

Segmenting uplink control data across licensed and unlicensed cells resolves narrowband PCell capacity limits while maintaining transmission reliability.

A context-aware radio resource management system selects optimal wireless communication paths using end-to-end quality ratings.

Non-6 GHz access points advertise collocated 6 GHz radios to resolve scanning inefficiencies and load imbalances in mixed deployments.

Pre-allocated uplink resources enable V2X data transmission in idle state, reducing signaling overhead during frequent inter-cell handovers.

Connection Manager Server directs user equipment migration to reduce application delay and throughput loss in congested virtual networks.

User equipment manages compressed and uncompressed queues to generate transport blocks, reducing MAC padding and improving network resource utilization.

Derivation unit calculates individual congestion sensitivity to tailor information provision, resolving uniform delivery inefficiencies.

Mobility management node transmits disconnection request with barring time to mobile stations, preventing network congestion during core equipment failures.

Resource grid mapping reserves specific elements in asymmetric sub-frames to prevent data transmission overlap.

Assigning radio resources to groups with comparable data rates prevents buffer overflows and reduces power consumption during multi-radio link communications.

A terminal postpones HARQ-ACK transmission via a control unit that manages uplink resources based on configured maximum periods.

Pre-configured backup paths eliminate latency from rediscovery when intermediate devices disconnect due to mobility or load.

Narrow beam mesh networks analyze topography data to direct signals toward customer premises, reducing channel interference while maintaining coverage.

Mobile station shifts communication state to enable high speed uplink packet access via established radio links.

Dynamic BSR trigger cancellation aligns LTE and NR procedures to prevent resource misallocation from differing cancellation policies.

Beacon radio equipment monitors vessel presence and uses altitude data to establish links, reducing energy waste from meaningless transmissions.

A Policy and Charging Rules Node segments filter sets to authorize Quality of Service information for active flows.

Terminal devices autonomously update CSG and PSG lists based on location area updates, reducing signaling load and network upgrade costs.

A macro wireless access network node coordinates data rates with a local node using proportional allocation of aggregate maximum bit rates.

Automated planning system calculates signal-to-interference-and-noise ratio to determine spectral efficiency for user equipment.

Cloud server calculates SLA network coverage metrics from wireless sensors, generating alerts when thresholds are not met.

A master evolved Node B interprets secondary base station buffer indicators to adjust data split ratios across dual connectivity bearers.

A MAC entity creates enhanced MAC-e PDUs with variable-length headers to support flexible RLC segmentation.

Dynamic superframes and distributed beaconing reduce idle listening energy consumption while supporting mobility in body area networks.

A base station allocates spectral resources to device-to-device pairs by identifying served terminals that satisfy quality of service criteria.

Media Resource Identification information enables dynamic transmission scheme selection based on user count.

Pre-loaded geographic policy rules allow network components to apply Quality of Service settings locally, reducing messaging traffic between control functions.

UE capability reporting defines maximum non-overlapped CCEs per PDCCH span, reducing latency and improving resource utilization.

A PDCP entity instructs other protocol layers to activate or deactivate data duplication functions upon receiving network commands.

User equipment performs listen-before-talk on sub-6 GHz bands to reserve millimeter wave channels, reducing interference and improving data rates.

Rotated OFDM symbols and duplicate fields in WLAN PHY preambles signal new data formats, resolving legacy device compatibility issues.

Segmenting 8-MHz bandwidth into variable sub-channels resolves throughput delays in wireless video surveillance networks.

A data processing method adjusts base station packet delay using translation parameters including MCS numbers and retransmissions.

Terminal devices receive network notifications to select target air interface manners, enabling flexible adaptation to varying communication scenarios.

A femto node determines mobility parameters by detecting capabilities of neighboring access points and comparing them to its own.

A network configuration system predicts UAV locations using movement data to pre-configure topology.

A Radio Access Network Congestion Awareness Function manages Quality of Service parameters for roaming user equipment in visited cells.

An apparatus modifies mobile communication quality of service parameters based on detected eco-friendly conditions.

Data Source Control channels evaluate sector credits to anticipate target base stations, reducing service outage duration during wireless handoffs.

A traffic control platform identifies high-consumption user devices to limit their throughput during network congestion.

Context-aware MME segments IoT paging workflows using dynamic operational mode mapping to optimize network resource allocation.

A bearer path layer monitoring system identifies IP addresses, tunnel IDs, and QoS parameters to enable real-time performance measurement.

A wireless network reserves specific frequency-time blocks for advanced terminals using predetermined locations to support multiple access technologies.

Pre-configures DRX timer durations before bandwidth part switching occurs, reducing processing overhead and power consumption.